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3,335 results for “Apoidea”
Fig. 78 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 78. Left dorsolateral habitus of holotype female of Thaumastobombus andreniformis, new species. Scale bar = 1 mm.
Figs. 89–90 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Figs. 89–90. Metatibia and metatarsus of holotype female of Succinapis goeleti, new species. 89. Outer surface. 90. Inner surface. Scale bar = 0.5 mm.
Figs. 93–95 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Figs. 93–95. Head of holotype female of Succinapis micheneri, new species. 93. Fronal view. 94. Ventrolateral, oblique view. 95. Dorsal view. Scale bars = 0.5 mm (a = fig. 93; b = figs. 94, 95).
Figs. 75–77 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Figs. 75–77. Wings of Protobombus species. 75. Forewing of Protobombus basilaris, new species. 76. Hind wing of P. basilaris, new species. 77. Forewing of P. hirsutus (Cockerell). Scale bars = 1
Figs. 70–72 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Figs. 70–72. Leg structures of neotype female of Protobombus indecisus Cockerell. 70. Outer surface of metatibia and metabasitarsus. 71. Inner surface of metatibia. 72. Claw and arolium. Scale bars = 0.25 mm (a), 1 mm (b); (a = fig. 72; b = figs. 70, 71).
Figs. 26–29 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Figs. 26–29. Holotype female of Protolithurgus ditomeus, new species. 26. Frontal view of head. 27. Right lateral view of head. 28. Outer surface of metatibia. 29. Inner view of claw and arolium. Scale bars = 1 mm (a = fig. 26; b = fig. 27; c = figure 28; d = fig. 29).
Figs. 21–22 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Figs. 21–22. Holotype female of Eomacropis glaesaria, new species. 21. Frontal view of head. 22. Right dorsolateral oblique view of mesosoma, posterior border of prosoma, and anterior border of metasoma. NOTE: Staphyliniform beetle larva on mesoscutum of the holotype. Scale bars = 1 mm (a = fig. 22; b = fig. 21).
Fig. 19 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 19. Distitarsus, claw, and arolium of holotype female of Paleomelitta nigripennis, new species. Upper image is an outer view; lower image is an inner view. Scale bar = 0.25 mm.
Figs. 14–16 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Figs. 14–16. Leg structures of holotype female of Electrolictus antiquus, new species. 14. Metabasitibial plate. 15. Inner metatibial spur. 16. Claw, arolium, distitarsus, and apical two segments of mediotarsus. Scale bars = 0.5 mm (a = fig. 14; b = figs. 15, 16).
Fig. 4 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 4. Diagrammatic representation of a bee's prosomal and mesosomal dorsum with major anatomical structures labeled.
Figs. 9–12 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Figs. 9–12. Head of holotype female of Electrolictus antiquus, new species. 9. Dorsofrontal view. 10. Left lateral view. 11. Ventral view. 12. Frontal view. Scale bars = 1 mm (a = figs. 9, 10, 12; b = fig. 11).
Fig. 8 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 8. Right lateral habitus of holotype female of Electrolictus antiquus, new species. Scale bar =
Fig. 17 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 17. Frontal view of head of holotype female of Paleomelitta nigripennis, new species. Scale bar = 1 mm.
Fig. 18 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 18. Dorsal view of mesosoma, posterior border of prosoma, and anterior border of metasoma of holotype female of Paleomelitta nigripennis, new species. NOTE: The depicted incision in the hind wing is the jugal fold demarcating the apical margin of the jugal lobe; the vannal fold is positioned just under the posterior edge of the forewing. Scale bar = 1 mm.
Fig. 7 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 7. Diagrammatic wing with membranous cells and gross anatomical structures labeled. Upper image is a forewing; lower image is a hind wing.
Fig. 6 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 6. Diagrammatic wing with longitudinal and crossveins labeled as well as a single membrane feature (i.e., alar papillae). Upper image is a forewing; lower image is a hind wing.
Fig. 2 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 2. Diagrammatic representation of a longtongued bee's labiomaxillary complex with major structures labeled.
Fig. 1 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 1. Diagrammatic representation of a bee's head (= prosoma) with major morphological structures labeled. Left image is a frontal view of the head with the antennae and mandibles removed; right image is a ventral view of the head.
Fig. 3 in A Monograph Of The Baltic Amber Bees And Evolution Of The Apoidea (Hymenoptera)
Fig. 3. Diagrammatic representation of a left lateral view of a bee with major morphological features labeled. NOTE: The figure combines characters not found in combination in any known bee (living or fossil); graduli not illustrated for all terga or sterna.
Fig. 53 in Eggs, Ovariole Numbers, and Modes of Parasitism of Cleptoparasitic Bees, with Emphasis on Neotropical Species (Hymenoptera: Apoidea)
Fig. 53. Eggs of some cleptoparasitic bees from some of my recent publications, all reproduced in the same scale to illustrate the often complex shape of those that are hidden in open cells (above horizontal line) and the simple elongate shapes of those that are introduced into closed cells (below horizontal line). The size difference between the oocytes in these two categories is noteworthy, but is best analyzed in terms of oocyte length compared with body size of the female, i.e., the egg index; see Analyses and Results, subsection Size of Mature Oocytes.
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International Brain Laboratory public data
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OpenNeuro
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